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Hewitt, Paul G. – Science Teacher, 2019
Part 1 of the series looked at teaching speed and velocity. Part 2 considers the teaching of acceleration in physics. Teachers may find it okay to hurry through the concepts of speed and velocity because they are intuitive. But teachers cannot hurry through acceleration quite so quickly because it is not intuitive. Whereas velocity is a rate of…
Descriptors: Motion, Scientific Concepts, Science Instruction, Science Teachers
Hewitt, Paul G. – Science Teacher, 2019
Some introductory physics courses begin where student interest is thought to be highest--in waves, sound, and light--before speed, velocity, and acceleration. For students with math difficulties, this order makes sense. But most physics courses, including the author's own, begin with a study of motion. Why? Mostly due to tradition, he admits. When…
Descriptors: Motion, Scientific Concepts, Science Instruction, Science Teachers
Hancock, James Brian, II; Lee, May – Science Teacher, 2018
Many teachers are confused about how to implement the phenomena-based teaching recommended by the "Next Generation Science Standards" (NGSS Lead States 2013). This article describes one possible approach--purposely repurposing existing activities. This process involves having teachers: (1) Choose a phenomenon that informs the development…
Descriptors: Concept Teaching, Scientific Concepts, Scientific Principles, Teaching Methods
Stoeckel, Marta R. – Science Teacher, 2018
Along-standing energy lab involves dropping bouncy balls and measuring their rebound heights on successive bounces. The lab demonstrates a situation in which the mechanical energy of a system is not conserved. Although students enjoyed the lab, the author wanted to deepen their thinking about energy, including the connections to motion, with a new…
Descriptors: Energy, Science Instruction, Scientific Concepts, Misconceptions
Campbell, Todd; Neilson, Drew – Science Teacher, 2016
In this article Campbell and Neilson discuss several design strategies developed or adopted that were found particularly helpful when sequencing a unit that focused on learning about motion and acceleration. Students were expected to predict, observe, and explain why a ball traveled down one ramp faster than the other. Before engaging students,…
Descriptors: Models, Motion, Kinetics, Scientific Principles
Hewitt, Paul G. – Science Teacher, 2016
Examples of equilibrium are evident everywhere and the equilibrium rule provides a reasoned way to view all things, whether in static (balancing rocks, steel beams in building construction) or dynamic (airplanes, bowling balls) equilibrium. Interestingly, the equilibrium rule applies not just to objects at rest but whenever any object or system of…
Descriptors: Physics, Motion, Kinetics, Scientific Concepts
Dani, Danielle; Hallman-Thrasher, Allyson; Litchfield, Erin – Science Teacher, 2018
One way to probe students' misconceptions about science during instruction is by using formative assessments. Described as assessments "for" learning rather than assessments "of" learning (Black and Wiliam 1998), they provide teachers with information about student understanding during instruction. Examples of formative…
Descriptors: Cues, Writing (Composition), Teaching Methods, Scientific Concepts
Gilbert, Amy; Wade, Katherine – Science Teacher, 2014
For an introductory engineering class at an all-girls urban high school in the Southeast, the authors planned an experience that would align with the engineering aspects of the "Next Generation Science Standards" (NGSS Lead States 2013). The goal was to better relate science, technology, engineering, and mathematics (STEM) to everyday…
Descriptors: Introductory Courses, Engineering Education, Urban Schools, High School Students
Tretter, Thomas – Science Teacher, 2012
Teachers strive to engage students in rich and varied experiences involving exploration. These experiences should be accessible to all types of learners (e.g., visual, kinesthetic, mathematically inclined), offering multiple pathways for engagement at different levels of sophistication and accommodating both conceptual and computational…
Descriptors: Physics, Video Technology, Teaching Methods, Science Instruction
Campbell, Todd; Neilson, Drew; Oh, Phil Seok – Science Teacher, 2013
Of the eight practices of science identified in "A Framework for K-12 Science Education" (NRC 2012), helping students develop and use models has been identified by many as an anchor (Schwarz and Passmore 2012; Windschitl 2012). In instruction, disciplinary core ideas, crosscutting concepts, and scientific practices can be meaningfully…
Descriptors: Physics, Models, Science Education, Science Instruction
Eisenstein, Stanley – Science Teacher, 2008
First-year physics students often have a difficult time grasping Newton's laws of motion and recognizing the forces that these laws depend on. The "Paper Car" project is an experiential activity that is rich in application of force principles. It is also simple enough that students are able to integrate straightforward but non-trivial physics…
Descriptors: Physics, Motion, Teaching Methods, Scientific Principles
Spevak, Arlene – Science Teacher, 2008
The algebraic concepts and major ideas that govern Newton's laws of motion can often be a challenge for the majority of ninth-grade students. Therefore, to make learning these concepts less task-oriented and more enjoyable, the author developed lessons that allow students to construct and express their understanding of these ideas through…
Descriptors: Physics, Cooperative Learning, Motion, Individualized Instruction
Freudenrich, Craig – Science Teacher, 2005
Since 1995, astronomers have discovered over 100 known exoplanets--planets outside of the solar system--and determined their properties such as mass, orbital distance, size, and density. By using simple algebraic equations of physics, students can determine these properties as well. In this article, the author discusses an activity titled…
Descriptors: Teaching Methods, Motion, Grade 12, Astronomy

Roy, Darlene – Science Teacher, 1995
Describes an activity that challenges students to apply their knowledge of motion to designing and constructing roller coasters. Emphasizes the processes students go through to communicate their ideas and the problem-solving skills they develop. (JRH)
Descriptors: Acceleration (Physics), Motion, Problem Solving, Science Activities

Esler, William K.; Sanford, Daniel – Science Teacher, 1989
Water rockets are used to present Newton's three laws of motion to high school physics students. Described is an outdoor activity which uses four students per group. Provides a launch data sheet to record height, angle of elevation, amount of water used, and launch number. (MVL)
Descriptors: Instructional Materials, Mathematical Applications, Mechanics (Physics), Motion
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